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C J Mundy

Biographic Data

ID6021345
NAMEC J Mundy
GIVEN NAMESC J
FAMILY NAMEMundy
SIGNATUREMUNDY C J
AFFILIATIONSUniversity of Manitoba
ORCID0000-0001-5945-8305
VERIFIEDYes
TOTAL WORKS11
TOTAL CITATIONS2
AUTHOR COUNT11
EDITOR COUNT0
FIRST PUBLICATION YEAR2017
LATEST PUBLICATION YEAR2025
H-INDEX1
  • A pan-Arctic perspective on the influence of ice algae on sea-ice nutrient concentrations

    Open Access•Fowzia Ahmed, E Leu et al.•ARTICLE•Elementa Science of the…•2025

    Sea-ice algae account for a substantial part of annual primary production in ice-covered waters and are an important component of the Arctic marine food web. With climate-induced changes to snow and sea-ice cover and their impact on the surface ocean, such as earlier melt, thinner ice, and increased upper-ocean stratification, a shift toward earlier and more extensive nutrient limitation on ice algal growth can be expected. Therefore, increasing …

  • Increasing depth distribution of Arctic kelp with increasing number of open water days with light

    Open Access•Laura Castro de la Guardia, Karen Filbee‐Dexter et al.•ARTICLE•Elementa Science of the…•2023

    Kelps are a dominant macrophyte group and primary producer in Arctic nearshore waters that provide significant services to the coastal ecosystem. The quantification of these services in the Arctic is constrained, however, by limited estimates of kelp depth extent, which creates uncertainties in the area covered by kelp. Here, we test the environmental drivers of the depth extent of Arctic kelp. We used Southampton Island (SI), Nunavut, Canada, as…

  • FTIR autecological analysis of bottom-ice diatom taxa across a tidal strait in the Canadian Arctic

    Open Access•Nicole M Pogorzelec, Nicole Pogorzelec et al.•ARTICLE•Elementa Science of the…•2022

    A recent study demonstrated that an Arctic tidal strait, where a shoaled and constricted waterway increases tidally driven sub-ice currents and turbulence, represents a “hotspot” for ice algal production due to a hypothesized enhanced ocean-ice nutrient supply. Based on these findings, we sampled the bottom-ice algal community across the same tidal strait between the Finlayson Islands within Dease Strait, Nunavut, Canada, in spring 2017. Our obje…

  • Biophysical indicators and Indigenous and Local Knowledge reveal climatic and ecological shifts with implications for Arctic Char fisheries

    Open Access•Marianne Falardeau, Edward M Bennett et al.•ARTICLE•Global Environmental Change•2022•Cited by: 1•References: 4

    Managing Arctic marine resources to be resilient to environmental changes requires knowledge of how climate change is affecting marine food webs and fisheries. Changes to fishery resources will have major implications for coastal Indigenous communities whose livelihoods, health, and cultures are strongly connected to fisheries. Understanding these broad social-ecological changes requires a transdisciplinary approach bringing together contrasting …

  • Monitoring a changing Arctic

    Open Access•Karley Campbell, Ilkka Matero et al.•ARTICLE•AMBIO•2022•Cited by: 1•References: 57

    Sea ice continues to decline across many regions of the Arctic, with remaining ice becoming increasingly younger and more dynamic. These changes alter the habitats of microbial life that live within the sea ice, which support healthy functioning of the marine ecosystem and provision of resources for human-consumption, in addition to influencing biogeochemical cycles (e.g. air–sea CO 2 exchange). With the susceptibility of sea ice ecosystems to cl…

  • Environmental drivers of spring primary production in Hudson Bay

    Open Access•L C Matthes, Jens K Ehn et al.•ARTICLE•Elementa Science of the…•2021

    Pertinent environmental factors influencing the microalgal bloom during sea-ice breakup in Hudson Bay were investigated in June 2018, producing the first observations of late spring primary production in the offshore waters of this vast inland sea. Phytoplankton production was found to commence at the onset of ice melt, with surface nutrient depletion leading to the formation of a subsurface chlorophyll maximum in the open waters of western Hudso…

  • Sediment-laden sea ice in southern Hudson Bay

    Open Access•David G Barber, Madison L Harasyn et al.•ARTICLE•Elementa Science of the…•2021

    During a research expedition in Hudson Bay in June 2018, vast areas of thick (>10 m), deformed sediment-laden sea ice were encountered unexpectedly in southern Hudson Bay and presented difficult navigation conditions for the Canadian Coast Guard Ship Amundsen. An aerial survey of one of these floes revealed a maximum ridge height of 4.6 m and an average freeboard of 2.2 m, which corresponds to an estimated total thickness of 18 m, far greater tha…

  • Environmental drivers of under-ice phytoplankton bloom dynamics in the Arctic Ocean

    Open Access•Mathieu Ardyna, C J Mundy et al.•ARTICLE•Elementa Science of the…•2020

    The decline of sea-ice thickness, area, and volume due to the transition from multi-year to first-year sea ice has improved the under-ice light environment for pelagic Arctic ecosystems. One unexpected and direct consequence of this transition, the proliferation of under-ice phytoplankton blooms (UIBs), challenges the paradigm that waters beneath the ice pack harbor little planktonic life. Little is known about the diversity and spatial distribut…

  • Environmental factors influencing the seasonal dynamics of spring algal blooms in and beneath sea ice in western Baffin Bay

    Open Access•L Oziel, Philippe Massicotte et al.•ARTICLE•Elementa Science of the…•2019

    Arctic sea ice is experiencing a shorter growth season and an earlier ice melt onset. The significance of spring microalgal blooms taking place prior to sea ice breakup is the subject of ongoing scientific debate. During the Green Edge project, unique time-series data were collected during two field campaigns held in spring 2015 and 2016, which documented for the first time the concomitant temporal evolution of the sea ice algal and phytoplankton…

  • Average cosine coefficient and spectral distribution of the light field under sea ice

    Open Access•L C Matthes, Jens K Ehn et al.•ARTICLE•Elementa Science of the…•2019

    The Arctic spring phytoplankton bloom has been reported to commence under a melting sea ice cover as transmission of photosynthetically active radiation (PAR; 400–700 nm) suddenly increases with the formation of surface melt ponds. Spatial variability in ice surface characteristics, i.e., snow thickness or melt pond distributions, and subsequent impact on transmitted PAR makes estimating light-limited primary production difficult during this time…

  • A model-based analysis of physical and biological controls on ice algal and pelagic primary production in Resolute Passage

    Open Access•Eric Mortenson, Hakase Hayashida et al.•ARTICLE•Elementa Science of the…•2017

    A coupled 1-D sea ice-ocean physical-biogeochemical model was developed to investigate the processes governing ice algal and phytoplankton blooms in the seasonally ice-covered Arctic Ocean. The 1-D column is representative of one grid cell in 3-D model applications and provides a tool for parameterization development. The model was applied to Resolute Passage in the Canadian Arctic Archipelago and assessed with observations from a field campaign …

  • Biophysical indicators and Indigenous and Local Knowledge reveal climatic and ecological shifts with implications for Arctic Char fisheries

    Open Access•Marianne Falardeau, Edward M Bennett et al.•ARTICLE•Global Environmental Change•2022•Cited by: 1•References: 4

    Managing Arctic marine resources to be resilient to environmental changes requires knowledge of how climate change is affecting marine food webs and fisheries. Changes to fishery resources will have major implications for coastal Indigenous communities whose livelihoods, health, and cultures are strongly connected to fisheries. Understanding these broad social-ecological changes requires a transdisciplinary approach bringing together contrasting …

  • Monitoring a changing Arctic

    Open Access•Karley Campbell, Ilkka Matero et al.•ARTICLE•AMBIO•2022•Cited by: 1•References: 57

    Sea ice continues to decline across many regions of the Arctic, with remaining ice becoming increasingly younger and more dynamic. These changes alter the habitats of microbial life that live within the sea ice, which support healthy functioning of the marine ecosystem and provision of resources for human-consumption, in addition to influencing biogeochemical cycles (e.g. air–sea CO 2 exchange). With the susceptibility of sea ice ecosystems to cl…

  • A model-based analysis of physical and biological controls on ice algal and pelagic primary production in Resolute Passage

    Open Access•Eric Mortenson, Hakase Hayashida et al.•ARTICLE•Elementa Science of the…•2017

    A coupled 1-D sea ice-ocean physical-biogeochemical model was developed to investigate the processes governing ice algal and phytoplankton blooms in the seasonally ice-covered Arctic Ocean. The 1-D column is representative of one grid cell in 3-D model applications and provides a tool for parameterization development. The model was applied to Resolute Passage in the Canadian Arctic Archipelago and assessed with observations from a field campaign …

  • Environmental factors influencing the seasonal dynamics of spring algal blooms in and beneath sea ice in western Baffin Bay

    Open Access•L Oziel, Philippe Massicotte et al.•ARTICLE•Elementa Science of the…•2019

    Arctic sea ice is experiencing a shorter growth season and an earlier ice melt onset. The significance of spring microalgal blooms taking place prior to sea ice breakup is the subject of ongoing scientific debate. During the Green Edge project, unique time-series data were collected during two field campaigns held in spring 2015 and 2016, which documented for the first time the concomitant temporal evolution of the sea ice algal and phytoplankton…

  • Average cosine coefficient and spectral distribution of the light field under sea ice

    Open Access•L C Matthes, Jens K Ehn et al.•ARTICLE•Elementa Science of the…•2019

    The Arctic spring phytoplankton bloom has been reported to commence under a melting sea ice cover as transmission of photosynthetically active radiation (PAR; 400–700 nm) suddenly increases with the formation of surface melt ponds. Spatial variability in ice surface characteristics, i.e., snow thickness or melt pond distributions, and subsequent impact on transmitted PAR makes estimating light-limited primary production difficult during this time…

  • Environmental drivers of under-ice phytoplankton bloom dynamics in the Arctic Ocean

    Open Access•Mathieu Ardyna, C J Mundy et al.•ARTICLE•Elementa Science of the…•2020

    The decline of sea-ice thickness, area, and volume due to the transition from multi-year to first-year sea ice has improved the under-ice light environment for pelagic Arctic ecosystems. One unexpected and direct consequence of this transition, the proliferation of under-ice phytoplankton blooms (UIBs), challenges the paradigm that waters beneath the ice pack harbor little planktonic life. Little is known about the diversity and spatial distribut…

  • Environmental drivers of spring primary production in Hudson Bay

    Open Access•L C Matthes, Jens K Ehn et al.•ARTICLE•Elementa Science of the…•2021

    Pertinent environmental factors influencing the microalgal bloom during sea-ice breakup in Hudson Bay were investigated in June 2018, producing the first observations of late spring primary production in the offshore waters of this vast inland sea. Phytoplankton production was found to commence at the onset of ice melt, with surface nutrient depletion leading to the formation of a subsurface chlorophyll maximum in the open waters of western Hudso…

  • Sediment-laden sea ice in southern Hudson Bay

    Open Access•David G Barber, Madison L Harasyn et al.•ARTICLE•Elementa Science of the…•2021

    During a research expedition in Hudson Bay in June 2018, vast areas of thick (>10 m), deformed sediment-laden sea ice were encountered unexpectedly in southern Hudson Bay and presented difficult navigation conditions for the Canadian Coast Guard Ship Amundsen. An aerial survey of one of these floes revealed a maximum ridge height of 4.6 m and an average freeboard of 2.2 m, which corresponds to an estimated total thickness of 18 m, far greater tha…

  • FTIR autecological analysis of bottom-ice diatom taxa across a tidal strait in the Canadian Arctic

    Open Access•Nicole M Pogorzelec, Nicole Pogorzelec et al.•ARTICLE•Elementa Science of the…•2022

    A recent study demonstrated that an Arctic tidal strait, where a shoaled and constricted waterway increases tidally driven sub-ice currents and turbulence, represents a “hotspot” for ice algal production due to a hypothesized enhanced ocean-ice nutrient supply. Based on these findings, we sampled the bottom-ice algal community across the same tidal strait between the Finlayson Islands within Dease Strait, Nunavut, Canada, in spring 2017. Our obje…

  • Biophysical indicators and Indigenous and Local Knowledge reveal climatic and ecological shifts with implications for Arctic Char fisheries

    Open Access•Marianne Falardeau, Edward M Bennett et al.•ARTICLE•Global Environmental Change•2022•Cited by: 1•References: 4

    Managing Arctic marine resources to be resilient to environmental changes requires knowledge of how climate change is affecting marine food webs and fisheries. Changes to fishery resources will have major implications for coastal Indigenous communities whose livelihoods, health, and cultures are strongly connected to fisheries. Understanding these broad social-ecological changes requires a transdisciplinary approach bringing together contrasting …

  • Monitoring a changing Arctic

    Open Access•Karley Campbell, Ilkka Matero et al.•ARTICLE•AMBIO•2022•Cited by: 1•References: 57

    Sea ice continues to decline across many regions of the Arctic, with remaining ice becoming increasingly younger and more dynamic. These changes alter the habitats of microbial life that live within the sea ice, which support healthy functioning of the marine ecosystem and provision of resources for human-consumption, in addition to influencing biogeochemical cycles (e.g. air–sea CO 2 exchange). With the susceptibility of sea ice ecosystems to cl…

  • Increasing depth distribution of Arctic kelp with increasing number of open water days with light

    Open Access•Laura Castro de la Guardia, Karen Filbee‐Dexter et al.•ARTICLE•Elementa Science of the…•2023

    Kelps are a dominant macrophyte group and primary producer in Arctic nearshore waters that provide significant services to the coastal ecosystem. The quantification of these services in the Arctic is constrained, however, by limited estimates of kelp depth extent, which creates uncertainties in the area covered by kelp. Here, we test the environmental drivers of the depth extent of Arctic kelp. We used Southampton Island (SI), Nunavut, Canada, as…

  • A pan-Arctic perspective on the influence of ice algae on sea-ice nutrient concentrations

    Open Access•Fowzia Ahmed, E Leu et al.•ARTICLE•Elementa Science of the…•2025

    Sea-ice algae account for a substantial part of annual primary production in ice-covered waters and are an important component of the Arctic marine food web. With climate-induced changes to snow and sea-ice cover and their impact on the surface ocean, such as earlier melt, thinner ice, and increased upper-ocean stratification, a shift toward earlier and more extensive nutrient limitation on ice algal growth can be expected. Therefore, increasing …

Environmental Science (10 works) · Oceanography (10 works) · Sea ice (10 works) · Arctic (9 works) · Arctic and Antarctic ice dynamics (9 works) · Ecology (9 works) · Geology (9 works) · Biology (8 works) · Marine and coastal ecosystems (6 works) · Nutrient (6 works)

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